数字农科院2.0

Mitigating nitrous oxide emissions from a maize-cropping black soil in northeast China by a combination of reducing chemical N fertilizer application and applying manure in autumn

文献类型： 外文期刊

作者： Guo, Yanling;Chen, Guanxiong;Kou, Yongping;Xu, Hui;Guo, Yanling;Kou, Yongping;Luo, Liangguo

作者机构：

关键词： maize cropping soil;N2O;chemical N fertilizer;manure;grain yield

期刊名称： SOIL SCIENCE AND PLANT NUTRITION

ISSN： 0038-0768

年卷期： 2013 年 59 卷 3 期

页码：

收录情况： SCI

摘要： Nitrous oxide (N2O) emissions from agricultural soils, mainly caused by chemical nitrogen (N) fertilizer inputs, are major sources of N2O in Chinese terrestrial ecosystems. Thus, attempts to reduce N2O emissions from agricultural soils by optimizing N applications are receiving increasing attention. Further, organic fertilizers are being increasingly used in China to improve crop production/quality and prevent or reduce soil degradation. However, organic and chemical fertilizers are often both applied in spring in northeast China, which promotes N2O emissions and may be sub-optimal. Therefore, we hypothesized that reducing applications of chemical fertilizer N and applying manure in autumn could be an effective strategy for mitigating N2O emissions from cropped soils in the region. To test this hypothesis, we established a field trial to investigate the effects of different combinations of chemical N fertilizer applications and animal manure in autumn on both N2O emissions and maize (Zea mays L.) grain yields in northeast China. The treatments, expressed as NxMy (where Nx and My denote the total amounts of chemical fertilizer nitrogen (N) and manure (M) applied in kg N ha(-1) and m(3)Mha(-1), respectively), were N0M0, N230M0, N270M12, N230M15, N320M18 in 2010 and N0M0, N230M0, N200M12, N200M15, N280M18 in 2011. Measurements of the resulting N2O emissions showed that pulse fluxes occurred after each chemical N fertilizer application, but not after manure inputs in autumn or during soil-thawing periods in the following spring. Emission factors for the chemical fertilizer N were on average 1.07% (1.001.10%) and 1.14% (0.491.83%) in 2010 and 2011, respectively. Furthermore, by comparing the nine pairs of fertilization treatments, the relative increase in cumulative nitrous oxide-nitrogen (N2O-N) emissions was found to be proportional to the relative increase in urea application, but independent of the amount of autumn-applied manure. These findings imply that N2O emissions from fertilized agricultural soils in northeast China could be mitigated by supplying manure in the autumn and reducing the total amount of chemical N fertilizer applied in the following year. Although no significant difference in maize grain yield was found among the fertilization treatments, the grain yield-scaled N2O emissions for the treatments with a lower chemical N application (e.g., N230M15 and N200M15 treatments) were significantly lower than those with a higher chemical N application (e.g., N320M18 and N280M18 treatments). Meanwhile, under the condition of the same application amount of chemical fertilizer N, the grain yield-scaled N2O emission decreased with the increase of manure application rate. Thus, the results support the hypothesis that combining reductions in chemical N fertilizer and applying manure in autumn could be an effective strategy for mitigating N2O emissions from N-fertilized soils in northeast China.

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